Abstract:
An order-receiving-side negotiation device 20 for negotiating with an order-placing source who presents, to an order-receiving side that provides any product or service, an order proposal that represents a request for provision of the any product or service under predetermined negotiation conditions, includes: a planning unit 21 which prepares one or more negotiation candidates based on the predetermined negotiation conditions presented in the order proposal; an order-receiving-side's utility computation unit 22 which computes utility values for the order-receiving side with respect to the negotiation candidates; an order-placing source's utility estimation unit 23 which estimates utility values for the order-placing source with respect to the negotiation candidates; and a negotiation candidate determination unit 24 which determines a negotiation candidate with respect to the order proposal from among the plurality of negotiation candidates based on both the utility values for the order-receiving side and the utility values for the order-placing source.
Abstract:
A reasoning system that enables reasoning when there is a shortage of knowledge. An input unit receives a start state and an end state. A rule candidate generation unit identifies a first state, obtained by tracking one or more known rules from the start state, and a second state, obtained by backtracking one or more known rules from the end state, respectively. The generation unit generates a rule candidate relating to the first state and the second state or generates a rule candidate relating to the first state and a rule candidate relating to the second state. A rule selection unit selects, based on feasibility of the generated rule candidate, which is calculated based on one or more known rules, the generated rule candidate as a new rule. A derivation unit derives the end state from the start state, based on one or more known rules and the new rule.
Abstract:
An estimation data input unit 90 inputs estimation data including one or more explanatory variables which are information that may influence deterioration of an object. A component determination unit 91 determines a component to be used for estimation of deterioration of the object based on a hierarchical latent structure, which is a structure in which latent variables are represented by a tree structure and each of the components representing a probability model is assigned to each node at the lowest level of the tree structure, a gate function to determine a branch direction at each node of the hierarchical latent structure, and the estimation data. A deterioration estimation unit 92 estimates the deterioration of the object based on the component determined by the component determination unit 91 and the estimation data.
Abstract:
A feature-converting device that provides good features quickly. The device includes first and second feature construction units and first and second feature selection units. The first feature construction unit receives one or more first features and constructs one or more second features that represent the results of applying a unary function to the respective first features. The first feature selection unit computes relevance between the first and second features and a target variable that includes elements associated with elements included in the first features and selects one or more third features that represent highly relevant features. The second feature construction unit constructs one or more fourth features that represent the results of applying a multi-operand function to the third features. The second feature selection unit computes the relevance between the third and fourth features and the target variable and selects at least one fifth feature that represents highly relevant features.
Abstract:
This invention helps improve the precision of data mining. This information processing device is provided with the following: a function-defining means that defines a new function by composing a plurality of functions; an attribute-generating means that applies said new function to an attribute to generate a new attribute that is the result of applying that function to that attribute; and a determining means that inputs the new attribute to an analysis engine, which executes an analysis process on the basis of the attribute, and determines whether or not information outputted by said analysis engine satisfies a prescribed requirement.
Abstract:
A hierarchical latent structure setting unit 81 sets a hierarchical latent structure that is a structure in which latent variables are represented by a tree structure and components representing probability models are located at nodes of a lowest level of the tree structure. A variational probability computation unit 82 computes a variational probability of a path latent variable that is a latent variable included in a path linking a root node to a target node in the hierarchical latent structure. A component optimization unit 83 optimizes each of the components for the computed variational probability. A gating function optimization unit 84 optimizes a gating function model that is a model for determining a branch direction according to the multivariate data in a node of the hierarchical latent structure, on the basis of the variational probability of the latent variable in the node.
Abstract:
The planned route creating unit 3 creates a planned route of the self-driving vehicle 10. The non-traveling area plan creating unit 4 creates a plan of the non-traveling area, which is an area where the self-driving vehicle 10 can travel and which is an area set as an area where the self-driving vehicle 10 does not travel. The non-traveling area plan creating unit 4 creates a plan of the non-traveling area at a frequency lower than the frequency at which the planned route creating unit 3 creates a planned route. The transmission unit 6 transmits the plan of the non-traveling area to the other vehicle each time the plan of the non-traveling area is created.
Abstract:
A price estimation device that can predict a price with a high degree of precision is disclosed. Said price estimation device has a price-predicting means that predicts a price pertaining to second information in a target second time period by applying rule information to said second information, which includes explanatory variables. Said rule information represents the relationship between the explanatory variables and the price, said relationship having been extracted on the basis of a first-information set comprising first information in which explanatory-variable values are associated with price values. The explanatory variables include an attribute that represents a length of time, determined on the basis of a first time period in which a specific event occurs, pertaining to a target object associated with the aforementioned first information or the abovementioned second information. The value of said attribute in the second information is the length of time between the first time period and the second time period, and the value of the attribute in the first information is the length of time between the first time period and a third time period associated with the abovementioned price.
Abstract:
This invention discloses an order-volume determination device that determines an appropriate order volume. A component determination unit (91) determines a component to use in a shipment-volume prediction on the basis of the following: a hierarchical hidden structure in which hidden variables are represented by a tree structure and components representing probability models are assigned to the nodes at the lowest level of said tree structure; a gate function that determines the direction in which to branch at each node of the aforementioned hierarchical hidden structure; and prediction data. On the basis of the determined component and the prediction data, a shipment-volume prediction unit (92) computes a predicted shipment volume for a product between the present time and a second point in time that is after a first point in time. An order-volume determination unit determines (93) an order volume for said product by adding or subtracting an amount corresponding to the prediction-error spread of the determined component to or from an amount obtained by subtracting, from the predicted shipment volume for the product between the present time and the abovementioned second point in time, the current inventory of the product and the amount of the product that will be received between the present time and the abovementioned first point in time.
Abstract:
A hierarchical latent structure setting unit 81 sets a hierarchical latent structure that is a structure in which latent variables are represented by a tree structure and components representing probability models are located at nodes of a lowest level of the tree structure. A variational probability computation unit 82 computes a variational probability of a path latent variable that is a latent variable included in a path linking a root node to a target node in the hierarchical latent structure. A component optimization unit 83 optimizes each of the components for the computed variational probability. A gating function optimization unit 84 optimizes a gating function model that is a model for determining a branch direction according to the multivariate data in a node of the hierarchical latent structure, on the basis of the variational probability of the latent variable in the node.